Electrostatic fluid accelerator

Abstract

An electrostatic fluid accelerator having a multiplicity of closely spaced corona electrodes. The close spacing of such corona electrodes is obtainable because such corona electrodes are isolated from one another with exciting electrodes. Either the exciting electrode must be placed asymmetrically between adjacent corona electrodes or an accelerating electrode must be employed. The accelerating electrode can be either an attracting or a repelling electrode. Preferably, the voltage between the corona electrodes and the exciting electrodes is maintained between the corona onset voltage and the breakdown voltage with a flexible top high-voltage power supply. Optionally, however, the voltage between the corona electrodes and the exciting electrodes can be varied, even outside the range between the corona onset voltage and the breakdown voltage, in to vary the flow of fluid. And, to achieve the greatest flow of fluid, multiple stages of the individual Electrostatic Fluid Accelerator are utilized with a collecting electrode between successive stages in order to preclude substantially all ions and other electrically charged particles from passing to the next stage, where they would tend to be repelled and thereby impair the movement of the fluid. Finally, constructing the exciting electrode in the form of a plate that extends downstream with respect to the desired direction of fluid flow also assures that more ions and, consequently, more fluid particles flow downstream.

Description

BACKGROUND OF THE INVENTION [0001] 1. Field of the Invention [0002] This invention relates to a device for accelerating, and thereby imparting velocity and momentum to a fluid, especially to air, through the use of ions and electrical fields. [0003] 2. Description Of The Related Art [0004] A number of patents (see, e.g., U.S. Pat. Nos. 4,210,847 and 4,231,766) have recognized the fact that ions may be generated by an electrode (termed the “corona electrode”), attracted (and, therefore, accelerated) toward another electrode (termed the “attracting electrode”), and impart momentum, directed toward the attracting electrode, to surrounding air molecules through collisions with such molecules. [0005] The corona electrode must either have a sharp edge or be small in size, such as a thin wire, in order to create a corona discharge and thereby produce in the surrounding air ions of the air molecules. Such ions have the same electrical polarity as does the corona electrode. [0006] Any other ...

AI Technical Summary

Benefits of technology

[0015] The present Electrostatic Fluid Accelerator employs two fundamental techniques to achieve significant speeds in the fluid flow, which can be virtually any fluid but is most often air, and which will not produce substantial undesired ozone and nitrogen oxides when the fluid is air.

Problems solved by technology

To date, even these high initial ionic velocities have not produced significant speeds of air movement.

And, even worse, such high ionic velocities cause such excitation of surrounding air molecules that substantial quantities of ozone and nitrogen oxides, all of which have well-known detrimental environmental effects, are produced.

These result in a slight loss of efficiency because they tend to be drawn back to the anode.

Furthermore, the distance required for such recombination as does occur is very probably so great that it would be a detriment to using multiple stages to provide increased speed to the air.

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